Technology and methods

Artificial intelligence (AI) is part of everyday life and has innumerable uses — from summarizing a book or designing a poster, to recommending a TV show or parking your car. But how can AI be useful in biology? In this video narrated by Whitehead Institute Member Rick Young, learn how scientists are taking advantage of AI to greatly accelerate biological discoveries.

Valhalla Fellow Lindsey Backman explains what the microbiome is and the roles that different members of our microbiomes play in health and disease. She also discusses how her lab studies adaptations that some microbes have evolved to tolerate oxygen-containing environments, and how researchers may be able to use what she learns to create better antibiotics and probiotics.

In order for researchers to understand the biology of living organisms, they must consider what is happening across the size scale. Interactions between molecules drive interactions between cells that affect traits and behaviors. Experiences and decisions made by the organism can lead to changes at the cellular and molecular level. In order to understand the full picture, Whitehead Institute researchers study everything from molecules to cells to whole organisms.

Researchers at Whitehead Institute are employing cutting-edge techniques that combine layers of data — from the function of individual genes to the interactions of all molecules within a living organism — to investigate biological phenomena with unprecedented depth and breadth. Their efforts are yielding a richer understanding of the mechanisms involved in health and disease.

Whitehead Institute Founding Member Rudolf Jaenisch and colleagues developed an approach to isolate and analyze phagosomes, which are an important organelle in microglia, a type of immune cell found in the brain. Microglia are involved in brain development, as well as neurodegeneration, brain cancer, and more so understanding their biology has many potential implications.

Whitehead Institute Member Siniša Hrvatin is studying tardigrades to decode the mechanisms enabling their survival in extreme environmental conditions. Learn about the biology of these microscopic “water bears” and what makes them a particularly fascinating model organism. Click here to view the full multimedia story.

Whitehead Institute Member David Bartel and colleagues uncovered how small changes in the molecular machines that carry out RNA interference can lead to big differences in the efficacy of gene silencing. Their findings have implications for the design of gene-silencing therapeutics.

From how genes are regulated, to how cells transport important cargo — there are many biological processes that work similarly across organisms, and are versatile in their function. Click here to watch a video on how Whitehead Institute researchers are finding ways to tailor existing biological processes to expand the potential to address complex problems.